Thermodynamics - Turbines, Compressors, and Pumps in 9 Minutes!

Enthalpy and Pressure
Turbines
Pumps and Compressors
Mixing Chamber
Heat Exchangers
Pipe Flow
Duct Flow
Nozzles and Diffusers
Throttling Device
0:00 Devices That Produce or Consume Work
1:00 Turbines
2:16 Compressors
3:23 Pumps
5:15 Turbine and Throttling Device Example
6:01 Solution - Throttling Device
6:36 Solution - Turbine
Example 1: • Open Systems - Compres...
Example 2: • Turbine Exit Saturated...
Example 3: • Steady State Device - ...
Previous Lecture:
16. Pipe Flow, Nozzles, Diffusers, and Throttling Devices:
• Pipe Flow, Nozzles, Di...
Next Lecture:
18. Mixing Chambers and Heat Exchangers:
• Heat Exchangers and Mi...
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Other Thermodynamics Lectures:
1. Thermodynamics Intro and Units Review: • THERMODYNAMICS Basic U...
2. Zeroth Law of Thermodynamics: • ZEROTH LAW of Thermody...
3. Closed vs. Open Systems & Intensive vs. Extensive Properties: • CONTROL VOLUMES - Clos...
4. First Law and Energy Types: • Energy Conservation Eq...
5. Efficiency in Thermodynamic Systems: • EFFICIENCY of Thermody...
6. Five Regions of T-v Diagrams: • T-v Diagrams and PROPE...
7. Interpolating and Quality Derivation: • INTERPOLATION for Ther...
8. Enthalpy and Internal Energy: • ENTHALPY and INTERNAL ...
9. Compressed Liquid Properties: • Thermodynamics COMPRES...
10. Ideal Gas and Compressibility Factor: • Ideal Gas Equation and...
11. Specific Heats: • Thermodynamics SPECIFI...
12. Specific Heat Relationships of Ideal Gases and Incompressible Substances: • Specific Heat and Ener...
13. Polytropic Process Work: • Work Expressions for P...
14. Mass and Volumetric Flow Rate: • Volumetric and MASS FL...
15. Flow Work and Energy Conservation in Open Systems: • FLOW WORK & Energy Con...
16. Pipe Flow, Nozzles, Diffusers, and Throttling Devices: • Pipe Flow, Nozzles, Di...
17. Turbines, Compressors, and Pumps: • Thermodynamics - Turbi...
18. Mixing Chambers and Heat Exchangers: • Heat Exchangers and Mi...
19. Transient Systems:
20. Second Law Intro and Power Cycles: • 2nd Law Intro and POWE...
21. Refrigerators and Heat Pumps: • REFRIGERATION and Heat...
22. Carnot Cycles and Reversible Processes: • Reversible Processes a...
23. Entropy as a Thermodynamic Property: • Thermodynamics - ENTRO...
24. Reference Entropy and Specific Heats: • REFERENCE ENTROPY and ...
25. Isentropic Efficiency: • Turbines, Compressors,...
26. Brayton Cycle: • Ideal BRAYTON CYCLE Ex...
27. Intercooling, Reheating, and Regenerators: • Regeneration, Intercoo...
28. Otto Cycle:
29. Standard Diesel Cycle:
30. Rankine Cycle:
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Other Engineering Courses (Playlists):
/ lessboringlectures
Statics: • Statics: Engineering M...
Mechanics of Materials: • Mechanics of Materials
Machine Design: • Mechanical Engineering...
SolidWorks (CAD): • SolidWorks (CAD)
Fluid Mechanics: • Fluid Mechanics

[@muhandez6484]

9 minutes of pure knowledge conductivity I appreciate your work sir

[@Guitar40193]

Super helpful, thanks!

[@kormybeats]

At 1:50, How is the velocity higher at p1 than p2 when p1 is higher in pressure than p2 ?

[@ec6895]

Why is it that we assume the mass flow rate at the inlet and exit to be the same?

[@mechanicalkiller1061]

steady state ( open Sys)

[@jds_1866]

If we assume we are in a steady state then the net mass flow will be zero so mi-me=0, which means mi=me=m